Optimization of Bistable Optical Sensors: Achieving Quantum-Level Sensitivity with Faster Response Time
Keywords:
Bistable Optical Sensors, Quantum-Level Sensitivity, Nonlinear Optical Effects, Kalman Filtering in SensingAbstract
Recent developments in the bistable optical sensors area have made it possible to achieve sensitivity improvements comparable to quantum sensors while conserving faster response times. This study presents an optimized bistable sensor model, gaining a minimum detectable field intensity of equivalent to quantum sensors. We could significantly reduce noise and enhance measurement stability using implementing nonlinear feedback mechanisms and Kalman filtering, which numerical simulations confirm. Comparative analysis with quantum sensors features potential applications in areas like photonics, biomedical imaging, and aerospace sensing. Our findings suggest that bistable sensors provide an efficient and high-speed alternative for practical implementations. Also, experimental implementation procedures have been proposed to facilitate the transition from simulation to laboratory validation.
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References
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